Standalone Power Systems Have a Skills Problem. Could AI Change That?
Ask anyone who works on standalone power systems what the hardest part to deliver is, and the answer is almost always commissioning.
Standalone power systems generate and store all the electricity a property needs, with no grid connection. Solar panels generate during daylight hours, batteries store the energy, and an inverter converts it into usable AC power. The challenge is in making those components work together reliably across a decade of operation and all the conditions a remote site will encounter.
Australia has tens of thousands of these systems, particularly across remote WA where extending the grid is expensive or simply not viable. The industry is growing as battery costs fall. A major limiting factor is people who can commission these systems properly.
The commissioning problem
A standalone power system draws on components from multiple manufacturers: solar panels, a battery bank with its own management system, an inverter/charger, and usually a backup generator. Getting them to work together requires setting charge parameters suited to the specific battery chemistry, calibrating the inverter's load management, and programming generator start conditions that protect the system without the diesel running more than it needs to.
This requires someone who understands not just how each component functions in isolation, but how the whole system behaves across different conditions: peak summer load, an extended cloudy week in winter, a battery bank aging through its fifth year of cycling.
What happens when that knowledge is missing is a form of layered conservatism. Battery discharge limits get set tighter than necessary. Generator start thresholds get set high. Charge voltages sit at the low end of the acceptable range. Each individual setting seems defensible. The combined effect is a system that works but burns more fuel, wears out components faster, and leaves the customer with worse economics than a well-commissioned system would have delivered.
Where AI is starting to help
There are two areas where AI tools are making a real difference.
The first is integration and monitoring code. Modern standalone power components communicate via standard protocols, and a properly integrated system can log performance data and flag anomalies automatically. Writing the code to pull this together used to require a developer with specific knowledge of each device's communication implementation. AI coding tools can now generate working integration code far faster, which means an engineer who understands what the system should report can get there without a software development background.
The second is fault diagnosis. When a system in the field isn't performing as expected, working through the problem remotely is difficult. AI tools can help a less experienced technician approach diagnosis systematically, narrowing down possibilities against the logged data and the equipment documentation.
Both of these raise the floor. A moderately experienced tradesperson/ engineer using these tools can do better work and catch more problems than they would have a few years ago.
What AI doesn't change
AI tools work with data and documentation. They don't carry the knowledge that comes from commissioning dozens of systems in varied conditions: the load profile pattern that suggests a property owner has changed how they use the site, the instinct that a particular equipment combination has a real-world quirk not documented in any manual.
An engineer using AI-generated recommendations still needs the judgement to evaluate whether those recommendations suit the specific site. That judgement comes from experience, not from the tool.
The skills shortage in standalone power commissioning is real. AI tools are beginning to ease it at the margins. For any remote property evaluating a standalone power system, the commissioning question deserves as much attention as the equipment specification.
Summation works on standalone power and hybrid energy projects across Australia, including review and diagnostic work when systems aren't performing as designed. The hardware is rarely the problem.